TW201228396A - A motion compensation deinterlacing image processing apparatus and method thereof - Google Patents

Abstract

The present invention discloses a motion compensation de-interlaced image processing apparatus. The apparatus comprises a motion compensation module, a still compensation module, a motion detection module and a de-interlaced blending module. The motion compensation module generates a motion compensation pixel according to at least one of the field, the previous field and the next field of a target pixel. The still compensation module generates a still compensation pixel according to the previous field and the next field of the target pixel. The motion detection module determines a motion index according to the previous field and the next field of the target pixel. The de-interlaced blending module generates a pixel value for the target pixel by weighted averaging the motion compensation pixel and the still compensation pixel according to the motion index.

Description

201228396

1 w /HAir/\iv!Y VI. Description of the Invention: [Technical Field] The present invention relates to an image deinterlacing processing apparatus, and more particularly to a deinterlacing image processing apparatus with motion compensation and related methods. [Prior Art] With the advent of the digital TV era, television can not only watch TV, but also use Internet to access web applications such as web pages. And digital TV can provide audio and video quality and personalized service beyond traditional analog TV. According to the specifications of digital televisions in various countries, the television signal format includes a progressive (intergressing) and interlacing scanning signal format. The signal formats of these two scans have their own advantages and disadvantages. Among them, the biggest advantage of interlaced scanning is that the amount of data to be transmitted is small, and the color vividness and contrast of the moving image are also better. Therefore, in the case of high-resolution and large-screen TVs, especially in the case of 1080 scan lines, the interlaced scan signal format is widely used, and its information transmission amount is relatively small, I save transmission. The bandwidth. / In detail, please refer to Figure 1. The signal format transmission of the interlaced scan decomposes each frame into a singular field (〇dd Fidd) and an even field (EvenField). The odd field contains only the elements of the odd line (Odd Line) in the frame, and the even field contains only the elements of the frame that are even lines. During transmission, the odd and vertical fields are alternately transmitted. The amount of data transferred per unit time can be halved. However, the image data received by the image receiving end is an odd field or an even field data, and the incomplete frame is processed by de-interlace.

201228396 TW7421PAMY The data in the same time is enough to produce 偶 μ with even or odd lines transmitted.咅S卩 疋 疋 疋 疋 , , , , , , , , 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 影像 影像 影像 影像 影像 影像 影像 影像 影像 影像 影像 影像 影像 影像 影像 影像 影像 影像 影像 影像 影像 影像 影像 影像 影像, 8, and 1 frames, when the first and second images are output, they must be in the format of the pixel data. 3, 4, 5, 6, 7, 8, 9, 10... all have the same reason, the solution of the solution is spatial deinterlacing or time deinterlacing = s water interlacing is the same At the time point, the t:: point of the field of the map is used to interpolate the pixel to be complemented, and the point is directly used as the interpolation value of the mean value, and the Fn can also be used. For example, in the first graph, the odd map field will deinterlace the 昼 prime value of the 昼 prime' space in the book of the previous line, or directly: the ordered phonocin c The average value of the halogen is taken as the pixel value of the drawing element A. In addition, the pixel values of the second A or the alizarin B are to be compensated as the elements of the same position: the parent error processing system is the same as before and after the graph: the average value of the 3 elements is used as the pixel value of the interpolation. For example: - The prime in the figure is the -"1 in the line to be interpolated. The deinterlacing process is the same in the book of the same position in the pre-even field FiM = the back-even field Fn+1 The average value of the position of the element (four) = 佥A? However, the spatial deinterlacing or time deinterlacing process can not interpolate the real pixels for the :: interpolation of the state, which will lead to the estimation of the true profit, and according to = the real 昼 '幵 The quality of the image. 201228396

1 w / Hzir / AiVlY SUMMARY OF THE INVENTION Accordingly, it is an object of the present invention to provide a deinterlaced image processing apparatus with motion compensation and related methods for solving the above problems. According to an embodiment of the invention, a de-interlaced image processing device with motion compensation is disclosed, which includes a time movement compensation module, a spatial motion compensation module, a spatial motion compensation module, and a motion compensation I hybrid module. . The time shift compensation module is configured to generate a time interpolation pixel and a time movement vector quality indicator according to a previous scene and a subsequent field of the pixel to be interpolated; the spatial motion compensation module is used. Generating a spatial interpolation element and a sawtooth index according to the field to be interpolated pixels; and a motion compensation mixing module, configured to interpolate the pixel according to the time, the spatial interpolation element, the time The motion vector quality indicator and the sawtooth indicator generate the to-be-interpolated pixel. According to an embodiment of the present invention, a method for processing a φ de-interlaced image with motion compensation is disclosed, which comprises generating a time interpolation picture according to a previous field and a subsequent field of a pixel to be interpolated. And a time-shifting vector quality indicator; generating a spatial interpolation element and a sawtooth indicator according to the field of the pixel to be interpolated; and interpolating the pixel according to the time, the spatial interpolation pixel, the time The motion vector quality indicator and the sawtooth indicator generate the to-be-interpolated pixel. According to an embodiment of the present invention, there is further disclosed a deinterlaced image processing apparatus with motion compensation. The device comprises a motion compensation module, a static compensation module, a mobile measurement module and a deinterlacing hybrid module.

201228396 TW7421PAMY Among them, the mobile_group is used to generate the mobile book=compensation module according to at least the field of the to-be-incorporated book, the front-picture field and the last field. Stop the field, generate a static compensation element; 敕^ _ reduce the picture of the pre-picture field of the interpolation element and the group = the poem according to the to-be-interlaced hybrid rib, (4) the bio-shift pure standard; The static compensation 昼素崎加卿 calculates that the production line is to be in accordance with an embodiment of the present invention, and another method for deinterlacing image processing with motion compensation is disclosed, which method includes at least the field of the prime, the front - The field and the last field, the generation-movement compensation check: according to the front-picture field and the latter picture field of the to-be-interpolated element, one or two compensation pixels are generated; according to the front of the to-be-interpolated element The field and the latter field generate a movement & and according to the movement indicator, calculate the movement compensation element and the static compensation money and the county, and generate the to-be-interpolated book 0 - according to the implementation of the invention For example, it further discloses a deinterlaced image processing device with motion compensation. The material includes a time-shifting compensation module for generating a time-interpolated pixel and a time-moving vector quality indicator according to a previous field and a subsequent field of the pixel to be interpolated; a motion compensation module, configured to generate a spatial interpolation pixel according to a field in which the pixel to be inserted is located; and a motion compensation hybrid module, configured to interpolate the pixel according to the time, and perform the spatial interpolation The alizarin and the time-moving vector quality are only privately generated to generate the to-be-interpolated element. According to an embodiment of the present invention, another method for mobile compensation is disclosed.

1 w /HiSirAiVlY The solution is also the same as the processing device. The device includes a time shift compensation module for generating a time-interpolated pixel according to a previous field and a subsequent field of the pixel to be interpolated; a spatial motion compensation module for _ 昼 所在 所在 , , , , , , 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在 所在The to-be-interpolated element is generated. The advantages of embodiments of the present invention utilize the estimation of the motion vector and thereby properly interpolate the real pixels to improve the quality of the image. In order to better understand the above and other aspects of the present invention, the preferred embodiments are described below in detail with reference to the accompanying drawings, in which: FIG. A functional block diagram of a de-interlaced image processing device 10 with motion compensation in accordance with a preferred embodiment of the present invention. The image-discharging device 10 is used to convert the field of the inspected scan into a progressive scan frame, which is intended to be interlaced in the odd or even field. The pixel interpolation of the missing even or odd rows is generated 'reduced into a complete frame. The deinterlaced image processing device 10 includes a time_domain motion compensation unit 100, a space_doinain motion compensation unit 200, and a motion compensation blending unit 300. In order to more clearly illustrate the operation of the present invention, please refer to FIG. 3, which is a flow chart of deinterlaced image processing with motion compensation according to a preferred embodiment of the present invention. First, in step 310, the 'time shift compensation module 100 is used according to the current field 201228396 TW7421PAMY ,

The previous picture field Fn-1 of Fn and the latter picture field Fn+1 generate the time interpolation pixel P3di and the corresponding time movement vector quality indicator I3di in the picture field Fn, including the time movement estimation unit 110, time 昼The prime interpolation unit 120 and the time movement vector quality indicator generation unit 130. Next, in steps 320 and 330, the spatial motion compensation module 200 is configured to generate a spatial interpolation pixel P2di in the row Ln according to the upper row Ln-Ι and the next row Ln+Ι of the row Ln to be compensated in the field Fn. The corresponding sawtooth index (Jaggy Index) Ij includes a spatial motion estimation unit 210, a spatial pixel interpolation unit 220, and a sawtooth detection unit 230. Finally, in step 340, the motion compensated mixing module 300 is configured to generate a motion compensated pixel PMCDi based on the time interpolation pixel P3di, the spatial interpolation pixel P2di, the time motion vector quality indicator I3di, and the sawtooth index Ij. Please refer to Fig. 4 to further explain the operation flow of the time shift compensation module 1〇〇. In step 312, the time movement estimating unit 11 performs a block comparison operation on the previous picture field Fn-Ι and the subsequent picture field Fn+Ι of the to-be-interpolated pixel Pxy to determine a time movement vector MV3D. . Referring additionally to Fig. 5A', it is a schematic diagram for determining a time shift vector. In the current picture field Fn, the pixel Pxy is a to-be-interpolated pixel, and the blocks 52〇, 540 are a comparison block size 'area 510, 530 is an alignment area. When the time shift vector of the pixel pxy is determined, the region is multiplexed in the regions 510, 530, and the block is aligned in the size of the blocks 520, 540. The time motion vector estimation processing may be to find the most similar block in the previous field Fn-Ι and the latter field Fn+Ι, and the search range may be the entire field or part of the field. Considering the amount of computation, the preferred embodiment of the present invention uses the Sum〇f Absolute Difference (SAD) algorithm, when the absolute value of a certain two blocks 201228396

1 w /H-^ir/\ivIY The sum of the errors is the smallest, then the two blocks are the best similar blocks, and the corresponding vector is the time shift vector of the pixel Pxy. The algorithm is as follows: N-'N-\ SAD(i,j) = XX|C(x + k,y + l)-R(x + i + k,y + j + /J -p<i,j<p k-0 /-0 movement vector For (w, AJ), let S AD be the smallest when f = = n, where (1) N represents the length and width of the block; (2) c〇c + b + 〇 represents the target image field, Points in the target image block; • (3) Outside + / + with + / + /) represents the point in the reference image block in the reference image field; (4) p represents the search range. Taking the preferred embodiment of the present invention as an example, in order to reduce complexity and save cost considerations, the blocks 520, 540 are selected as 1*5 one-dimensional blocks, and the regions 510, 530 are 5*10 regions. Assuming that the comparison result is that the block 520 in the previous field Fn-1 and the SAD in the block 540 in the latter field Fn+1 are the smallest, the motion vector MV3D is the time shift vector of the pixel Pxy • MV3D. It is worth noting that the size of blocks 520, 540 and areas 510, 530 may vary depending on the requirements of the implementation, and is not a limitation of the invention of the present invention. Next, in step 314, the time pixel interpolation unit 120 first finds the pixel Pn-1 in the previous field Fn-Ι and the pixel Pn+1 in the latter field Fn+Ι according to the time movement vector MV3D. Then according to the generation of a time to interpolate the halogen P3di to the halogen Pxy. The time interpolation method for generating the alizarin P3di may select one of the pixels Pn-1 or the alizarin Pn+1, or the weighted average of the alizarin Pn-1 and the 昼201228396 TW7421PAMY 1 'prime Pn+1 The value of the element. Next, in step 316, please refer to FIG. 5B, which is a schematic diagram for determining a time shift vector quality indicator. The time-shifting vector quality indicator generating unit 130 generates a time-shifting vector quality indicator according to the time-shifting vector MV3D of the pixel to be interpolated Pxy and the motion vectors MV1 to MV3 of the pixel corresponding to the previous row, the next row, and the previous field. I3di is used to provide the mobile compensation hybrid module 300 to determine the credibility of the time interpolation pixel P3di. The formula of the time-shift vector quality indicator I3di of the preferred embodiment of the present invention is as follows: I3di = |MV3D- MV1| + |MV3D- MV2| + |MV3D- MV3| The time-shift vector quality indicator I3di of another embodiment of the present invention determines The formula can also be as follows: I3di = Max (|MV3D- MV1|, |MV3D- MV2|, |MV3D> MV3)| When the time shift vector quality indicator I3di is small, it indicates the time shift vector MV3D of the pixel Pxy to be interpolated The moving vectors of the pixels corresponding to the surrounding and previous scenes are similar, which means that the moving trend is similar, so the time-moving vector MV3D and the time-interpolated pixel P3di have high credibility; on the contrary, when the time moves the vector quality index When I3di is large, it indicates that the time shift vector MV3D of the pixel to be interpolated is different from the motion vector of the pixel corresponding to the surrounding and previous fields. It also means that there is no same moving tendency, so the time shift vector MV3D and time interpolation The reliability of the patch P3di is very low. Next, for further spatial motion compensation processing, please refer to FIG. 6 first, which is a flow chart for generating a spatial compensation element. In step 322, the space motion estimation unit 210 pairs the pixel to be inserted Pxy 201228396 in the current field Fn.

1 W / 421 corpse ινΙΥ at least the previous line and the next line (the invention is better A

Between Ly-3 and Ly+3), block alignment is performed, and _space shift β仃 is generated. Please refer to Fig. 8, Pxy is a to-be-interpolated morpheme. angle. Comparing the block size, the area 810 is a comparison area. East 820 is a '^ In the embodiment, in order to reduce complexity and cost-saving considerations, Qinming is preferably a 1*5 one-dimensional block, and area 810 is a 7*1〇 area ^, block 82 〇

Ly-3~Ly+3). And the block comparison also uses the absolute value error # of Absolute Difference; SAD) algorithm, based on the second and the

And the next line Ln+1, the two blocks with the smallest SAD, and the spatial movement angle of the Pxy. It is worth noting that the size of blocks 82〇 and 疋^昼 810 may vary depending on the requirements of the implementation, and is not a regional limitation condition. Next, in step 324, the spatial pixel interpolation unit first finds the upper line Ln l ^ according to the spatial movement angle of the pixel Pxy.

The corresponding two elements in the next line Ln+1 are used to generate a spatial interpolation element P2di for the halogen Pxy. The method of generating the spatial interpolation pixel P2di may select one of the two pixels or a weighted average of the two pixels.

Receiver' Please refer to Figure 7, which is a flow chart for determining the mineral tooth index. In step 332, the spatial motion estimation unit 210 generates a maximum alignment difference value Max SAD and a minimum comparison pair value Min SAD in the block alignment process. Then, the sawtooth detecting unit 230 generates a sawtooth index y according to the maximum pair difference value Max sAD and the minimum comparison value Min SAD for providing the motion compensation hybrid module 300 to determine the spatial motion interpolation pixel P2di. Reliability. The formula determined by the sawtooth index Ij of the preferred embodiment of the present invention is as follows:

Ij = Max SAD - Min SAD 201228396 TW7421PAMY , ,, when the sawtooth index Ij hour ' indicates that the upper row Ln-1 1 and the next row Ln+1 of the pixel to be imputed PXy are not at the edge, so space The mobility of the imputed pixel P2di is high; conversely, when the sawtooth index y is large, it indicates that the upper row Ln-1 1 and the next row Ln+Ι of the pixel to be interpolated Pxy are at the edge. Therefore, the spatial mobility interpolation 昼素 P2di has low credibility. Finally, in step 340, the motion compensation mixing module 3 is configured to generate a motion compensation book according to the time interpolation pixel P3di, the spatial interpolation pixel P2di, the time movement vector quality indicator I3di, and the mineral tooth index Ij. PMCDi gives the pixel Pxy to be compensated. The motion compensation hybrid module 3〇〇 can select one of the time interpolation pixel P3di or the spatial interpolation pixel P2di as the motion compensation element PMCDi according to the time movement vector quality index I3di and the sawtooth index magic; or The time-shifting vector quality indicator I3di and the sawtooth index ij determine a weighting number α, and perform a weighted average calculation on the time-interpolated pixel p3di and the spatially-interpolated pixel P2di to generate the motion-compensated element PMCDi. However, the mobile compensation element PMCDi of the preferred embodiment of the present invention determines the latter method, and the formula is as follows: | μ PMCDi = a*P3di + (1-a)* P2di where ct = f (I3di, Ij ) = min max (a *I3di~,〇, j) The above description of the preferred embodiment of the present invention is a motion compensated deinterlaced image processing apparatus and method for considering the influence of the movement of the facet, and is used to generate the pixels to be compensated in the field. The pixel value. However, if a static compensation mechanism is added, there will be better compensation when the surface is still. See the description below for details. Please refer to FIG. 9 , which illustrates another preferred embodiment of the present invention having 12 201228396

1 w /HXir/u^V

A functional block diagram of a mobile-prepared deinterlaced image processing device. Similarly, the interlaced shirt image processing device 9 is used to convert the interlaced (interlaced 11) field into a progressive frame, meaning = interlaced odd field or even The odd-interpolation of the odd-numbered or even-numbered rows that are missing in the field produces 'reduced to-complete frames. The deinterlaced image processing device 9 includes a motion compensation module 910, a static compensation mode, a group 920, a mobile debt test module 93G, and a deinterlacing hybrid module 94(). For a clearer explanation of the invention operation, please refer to FIG. 1 for a flowchart of the deinterlaced image processing with motion compensation according to another preferred embodiment of the present invention. First, in the second step 1010, the 'motion compensation module 9iq is used to generate - the motion compensation 'PMCDi' includes any consideration time or space movement factor, and a method of generating a motion compensation factor. The motion compensation element PMCDi can be generated by the apparatus and method disclosed in the above figures and Fig. 3, but is not limited to the 1 mode. Next, in step 1020, the static compensation module 920 generates a static compensation element PSCDi and an index Im respectively by the motion detection module 930. Finally, in step 1〇3〇, the deinterlacing hybrid module _: Qiao mobile compensation element PMCDi, static compensation element _ and moving index Im, produces a de-interlaced pixel pDi. _ In more detail, please refer to the figure u, which is shown as a detailed flow chart for generating a stationary PSCDi and a moving indicator Im. In the step ^ static compensation module 92 〇 select the first picture 2 of the to-be-replenished scent kiss: the second position field Fn +1 the same position of the 昼 ' ' as the static compensation: strike the gold 匕 or calculate the previous picture The average value of the pixel in the field 1^1 and the latter field Fn+1 is used as the static compensation element PSCDi. In step 1024, the mobile measurement module 93G is based on the phase of the Ipxy to be compensated.

-I 201228396

1W7421PAMY « Guan Yusu, to generate the mobile indicator Im. In the preferred embodiment of the present invention, the difference value of the pixel at the same position in the previous field Fn-Ι and the latter field Fn+i is calculated as the moving index, and the calculation formula is as follows:

Im = |Pn-l -Pn+l| Another embodiment of the present invention is to calculate the movement index Im according to the movement index of the relevant element in the at least one surrounding and the front and rear map fields of the to-be-compensated Pxy. Wherein in this embodiment, the relevant pixel is the pixel to be complemented

Pxy-l (n, Px-ly-l, n, px+iy_i, n, Pxy+ln, px ly+ln, px+ly ln) of the same horizontal position of the upper row and the next row of Pxy, and Pix-ly, nl > Px+ly, nl ^ Pxy, n+1 . px.ly, n+l ' Px+ly, n+l ) » The calculation is as follows:

Ixy,n -p*Ixy,n-2 + (1-β)*|Ρχγ η_ι _ p xy,n+l|

Im,xy,n =avg(Ixy-l,n, Ix-ly-i^ lx+ly-l,n, Ixy+l,n,

Ix-ly+l,n, Ix+ly+l,n, Ixy,n-1,Ιχ.1γ?η_ΐ, Ix+ly,n, Ixy,n+1, lx- ly,n+l,ix+ Ly,n+1) Although the moving index Im is small, it means that the probability that the pixel to be interpolated Pxy is located in the stationary region is high in the continuous picture, so the reliability of the static compensation element psCDi is high; conversely, when the moving indicator When im is large, it means that the probability that the pixel to be interpolated Pxy is located in the moving region is high in the continuous picture, so the reliability of the stationary compensation element pSCDi is low. In addition, in the preferred embodiment of the present invention, the de-interlacing hybrid module 940 determines a weighting number p according to the moving index Im, and then compensates the mobile PM 10i and the static compensation pixel PSCDi. The weighted average calculation is performed to generate the deinterlaced pixel roi. Calculation formula 201228396

1 w /H^ir/\ivlY is as follows: PDi = y*PMCDi + (l-γ)* PSCDi where γ = f (Im ) but the deinterlacing hybrid module 940 can be selected as the mobile compensation element according to the movement index Im One of PMCDi or static compensation alizarin PSCDi is used as the de-interlaced pixel PDi. However, the above-described manner of generating the deinterlaced pixel PDi is only two preferred embodiments and is not a limitation of the present invention. In summary, although the present invention has been disclosed in the above preferred embodiments, it is not intended to limit the invention. Those skilled in the art can make various changes and modifications without departing from the spirit and scope of the invention. Therefore, the scope of the invention is defined by the scope of the appended claims. [Simple description of the drawing] Fig. 1 is a schematic diagram of deinterlacing image processing. FIG. 2 is a functional block diagram of a solution I interlaced image processing apparatus with motion compensation according to a preferred embodiment of the present invention. FIG. 3 is a flow chart of a method for processing a deinterlaced image with motion compensation according to a preferred embodiment of the present invention. Figure 4 is a flow chart of the operation of the time movement compensation module. Figure 5A is a diagram of the decision time shift vector. Figure 5B is a schematic diagram of determining the time movement vector quality indicator. Figure 6 is a flow chart for generating spatial compensation elements. Figure 7 is a flow chart for determining the mineral tooth index. Figure 8 is a flow chart of the image processing method of the present invention. 15 201228396 TW7421PAMY 1 " FIG. 9 is a functional block diagram of a deinterlaced image processing apparatus with motion compensation according to another preferred embodiment of the present invention. Figure 10 is a flow chart of deinterlacing image processing with motion compensation in accordance with another preferred embodiment of the present invention. Figure 11 is a flow chart showing the generation of a static compensation element and a movement indicator. [Description of main component symbols] 10 Deinterlaced image processing device 100 Time movement compensation module 110 Time movement estimation unit 120 Time pixel interpolation unit 130 Time movement vector quality indicator generation unit 200 Spatial motion compensation module 210 Spatial movement estimation Unit 220 spatial pixel interpolation unit 230 sawtooth detection unit 300 motion compensation hybrid module 90 deinterlaced image processing device 910 motion compensation module 920 static compensation module 930 motion detection module 940 deinterlacing hybrid module

Claims (1)

201228396 1 w ir/\i\4Y VII. Patent application scope: 1. A de-interlaced image processing device with motion compensation, the device comprises: a time-shift compensation module for using a pixel to be interpolated a previous picture field and a subsequent picture field, generating a time interpolation element and a time moving vector quality indicator; a spatial motion compensation module for generating a field according to the picture to be interpolated a spatial interpolation element and a sawtooth index; and a motion compensation hybrid module for interpolating pixels according to the time, the spatial interpolation pixel, the time moving vector quality indicator, and the mineral tooth index, The to-be-interpolated element is generated. 2. The deinterlaced image processing device of claim 1, wherein the time shift compensation module comprises: a time movement estimation unit for the previous image of the pixel to be interpolated The field and the latter field perform block alignment to determine a time movement vector; a time pixel interpolation unit for inserting the previous picture field and the subsequent picture field according to the time movement vector Complementing the calculation, generating the time interpolation pixel; and a time-shifting vector quality indicator generating unit, configured to generate a time shift according to the time movement vector and the motion vector of the at least one related element of the pixel to be interpolated Vector quality indicator. The deinterlaced image processing device of claim 2, wherein the time movement estimation unit is in a one-dimensional block size in the previous field and the latter field. The block alignment is performed in the predetermined area, and the vector is moved by the nearest vector in the block comparison. 4. The deinterlaced image processing device according to claim 2, wherein the time morphological interpolation unit obtains a first 昼 in the previous field and the subsequent field by using the time shift vector. And a second pixel, and the first pixel and the second pixel are averaged to calculate the time-interpolated element. 5. The deinterlaced image processing apparatus according to claim 2, wherein the time shift vector quality indicator generating unit uses the time shift vector to interact with a previous line, a line and the line of the pixel to be inserted. The previous field corresponds to the moving vector of the element, and the time-moving vector quality indicator is generated. 6. The de-interlaced image processing device of claim 1, wherein the spatial motion compensation module further comprises: a spatial motion estimation unit, configured to include at least one on the pixel to be interpolated Performing one-dimensional block comparison in a predetermined area of one row and one row, generating a plurality of comparison differences and a spatial movement angle; a spatial element interpolation unit for using the spatial movement angle to the predetermined area Interpolation calculation is performed to generate the spatial interpolation 昼201228396 1 w / HzirAMY element; and a sawtooth detection unit is configured to generate the mineral tooth index according to the plurality of comparison differences. The deinterlacing image processing device of claim 6, wherein the spatial motion estimation unit performs a block comparison in a region of the upper row and the next row in a one-dimensional block size. And move the angle to the space with the closest angle to the zone. 8. The deinterlaced image processing apparatus according to claim 6, wherein the space interpolation unit utilizes the spatial movement angle to obtain the third element and the third element. Tetracycline' and the average calculation of the second and _tetracyclines' produces the spatial interpolated pixels. In the deinterlaced image processing device according to item 6 of the ιΓ齿, the difference between the difference and the minimum comparison difference is generated to generate a large ratio of the _ tooth ^: the solution described in the first item Interlaced image processing device, and the sawing finger 2:! The group 'first moves the vector quality indicator at this time to interpolate the pixel and the space: complement' and then complement the pixel according to the weight. The interpolated enthalpy is subjected to weighted averaging to generate the deinterlaced image processing method with motion compensation. The method package 201228396 TW7421PAMY ^ * contains a previous field according to a to-be-interpolated pixel and a subsequent field, generating a time interpolation element and a time moving vector quality indicator; generating a spatial interpolation element and a sawtooth indicator according to the field in which the element to be interpolated is located; and according to the time The interpolation pixel, the spatial interpolation pixel, the time movement vector quality indicator, and the sawtooth index generate the pixel to be interpolated. 12. The method according to claim 11, wherein the step of generating the time-interpolated element and the time-moving vector quality indicator further comprises the previous field of the pixel to be interpolated. And the latter field performs block alignment to determine a time shift vector. 13. The deinterlaced image processing method according to claim 12, wherein the time interpolation pixel is generated by interpolating the previous field and the subsequent field according to the time movement vector. And the time shifting vector quality indicator is generated according to the time moving vector and the motion vector of the at least one related pixel of the pixel to be interpolated. 14. The deinterlaced image processing method according to claim 12, wherein the time shift vector is a block in a predetermined area of the previous field and the subsequent field in a one-dimensional block size. The comparison, the resulting block compares the closest vector. S 20 201228396 1 w /Hzir/\ivIY is. The solution as claimed in claim 12, wherein the time interpolating element is to utilize the time = image square front field and the latter field Obtaining a first moving direction 'in the prime' and averaging the first element and the second element; calculating 16 · such as the towel material I2 item of the intersection of the mobile vector quality indicator is the use of = two ; = the upper row of the prime, the lower-row and the front-map field corresponding to the moving vector of the element are compared. 17. The method of deinterlacing image processing according to item U of the patent application scope, wherein the step of generating the spatial interpolation pixel and the -_ indicator further comprises 3 according to a previous row and a row of the pixel to be interpolated. Performing a -dimensional block comparison in a predetermined area, generating a plurality of comparison differences and a *door shifting 18. The deinterlacing image processing method described in claim 17 of the scope of the patent application, the spatial interpolation of the ten The alizarin system uses the spatial movement angle to perform an interpolation calculation, and the mineral tooth index is generated by calculating a difference between the maximum comparison difference and the minimum comparison difference according to the plurality of comparison differences. 19. The method of deinterlacing image processing according to claim 17, wherein the spatial movement angle is a block alignment in the predetermined area by a one-dimensional block size, and the obtained block comparison is closest. Angle. The method for generating the to-be-interpolated image according to claim 11, wherein the step of generating the image to be interpolated further comprises first moving the vector quality indicator with the time and determining the mineral tooth index. The weighted number is further weighted and averaged according to the weighted number and the spatial interpolation pixels to generate the to-be-interpolated pixel. 21. A de-interlaced image processing device with motion compensation, the device comprising: a motion compensation module, configured to: at least according to a call scene, a previous field, and a In the latter field, a motion compensation pixel is generated; a static compensation module is configured to generate a static compensation element according to the previous field and the subsequent field of the pixel to be interpolated; a measurement module, configured to generate a movement indicator according to the relevant element of the to-be-interpolated element; and a deinterlacing hybrid module, configured to compensate the movement element and the static compensation element according to the movement indicator A weighted average calculation is performed, and the to-be-interpolated element is called. 22. The de-interlaced image processing device of claim 21, wherein the motion compensation module comprises: a time movement compensation module, configured to: according to the previous field of the pixel to be inserted In the latter field, a time interpolation element and a time movement vector quality indicator are generated; a spatial motion compensation module is used to determine the location of the element to be interpolated. 22 201228396 1 w /Hz.ir/\iVlY In the field, a spatial interpolation element and a sawtooth index are generated; and a motion compensation hybrid module is used to interpolate the pixels according to the time, and the space interpolation The time, the moving vector quality indicator, and the sawtooth indicator generate the motion compensation element. 23. The deinterlaced image processing device of claim 21, wherein the static compensation module selects the previous field φ of the pixel to be interpolated or the same position of the latter field. One of them is the stationary compensation pixel. The de-interlaced image processing device of claim 21, wherein the motion detection module compares the pixels of the previous field to be decoded and the same position of the latter field, To generate a mobile indicator. 25. A method for processing a deinterlaced image with motion compensation, the method package φ comprising: generating a motion compensation based on at least one picture field, one previous picture field and one subsequent picture field of a pixel to be interpolated And generating a static compensation element according to the previous picture field and the subsequent picture field of the to-be-interpolated pixel; generating a movement indicator according to the relevant element of the pixel to be interpolated; The moving indicator performs a weighted average calculation on the motion compensation element and the static compensation element to generate the to-be-interpolated element. The method for generating the motion-compensated pixel according to the method of claim 25, wherein the step of generating the motion-compensated pixel further comprises:: according to the previous field of the pixel to be inserted and the latter a field, generating a time interpolation pixel and a time moving vector quality indicator; generating a spatial interpolation pixel and a sawtooth index according to the field of the pixel to be interpolated; and interpolating the pixel according to the time The spatial interpolation element, the time movement vector quality indicator, and the sawtooth indicator generate the motion compensation. 27. The deinterlaced image processing method of claim 25, wherein the step of generating the static compensation element further comprises selecting the previous field of the pixel to be interpolated or the same field of the latter field. One of the elements of the position is the stationary compensation element. 28. The method according to claim 25, wherein the step of generating the to-be-interpolated pixel further comprises comparing the previous field of the pixel to be interpolated and the latter one. The pixels in the same position of the field are used to generate a moving indicator. 29. A de-interlaced image processing device with motion compensation, the device comprising: a time-shift compensation module for generating a picture according to a previous picture field and a subsequent picture field of a pixel to be interpolated Time interpolation and a P 24 201228396 lw /4zirAMY time movement vector quality indicator; a spatial motion compensation module for generating a spatial interpolation element according to a field where the pixel to be interpolated is located; A motion compensation hybrid module is configured to interpolate the pixels according to the time, the spatial interpolation element, and the time movement vector quality & The deinterlaced image processing device of claim 19, wherein the time shift compensation module comprises: another time shift estimation single center for the front of the pixel to be interpolated _ field and the back-picture field for block comparison, mosquito movement vector; '-time pixel interpolation unit for moving the vector according to the time, performing the previous field and the latter field Interpolation calculation 'generates the time interpolation pixel; and Λ momentary motion vector quality indicator generation unit for generating a time-shift vector according to the time movement vector and at least one related motion vector of the pixel to be interpolated Quality indicators. 3, the deinterlaced image processing loading field described in the 3rd item of the range and the latter picture: =!! The unit is aligned in the first-aligned vector block with the one-dimensional block size. And the block de-interlacing image processing device 25 201228396 TW7421PAMY - is described in the block 32. The monthly mobile motion compensation module further includes: a spatial motion estimation unit, Performing a one-dimensional block comparison according to the predetermined area of the at least one row and the next row to be interpolated, generating a plurality of comparison differences and a spatial movement angle; and a spatial pixel interpolation unit And performing interpolation calculation on the predetermined area according to the spatial movement angle, and generating the spatial interpolation element. 33. A de-interlaced image processing device with motion compensation, the device includes: a time-shift compensation module for generating a previous image field and a subsequent image field of a pixel to be interpolated a time-interpolating element; a spatial motion compensation module for generating a spatial interpolation element and a sawtooth index according to a field in which the element to be inserted is located; and a motion compensation hybrid module The interpolation pixel, the spatial interpolation element, and the sawtooth index are generated according to the time, and the to-be-interpolated ruthenium is generated. 34. The deinterlaced image processing device of claim 33, wherein the time shift compensation module comprises: a time movement estimation unit, configured to: the previous field of the pixel to be interpolated And the latter field performs block alignment to determine a time movement vector; and a time pixel interpolation unit for moving the vector according to the time, to P 26 201228396 IW /^ΖΙίΆΐνΙΥ the previous field and The latter field performs interpolation calculations to generate the time-interpolated pixels. 35. The deinterlaced image processing apparatus of claim 34, wherein the time movement estimation unit performs a zone in a predetermined area of the previous field and the subsequent field in a one-dimensional block size. The blocks are aligned, and the vector closest to the block is the vector of motion for that time. Φ 36. The de-interlaced image processing device of claim 33, wherein the spatial motion compensation module further comprises: a spatial motion estimation unit, configured to include at least one according to the to-be-interpolated pixel Performing one-dimensional block comparison in a predetermined area of the previous row and the next row, generating a plurality of comparison differences and a spatial movement angle; a spatial element interpolation unit for using the spatial movement angle to the predetermined The region performs interpolation calculation to generate the spatial interpolation φ element; and a sawtooth detection unit is configured to generate the mineral tooth index according to the plurality of comparison differences. 27